Highly Accurate Vegetation Loss Model with Seasonal Characteristics for High-Altitude Platform Station

High-Altitude Platform Station (HAPS) provides communication services from an altitude of 20km via a stratospheric platform such as a balloon, solar-powered airship, or other aircraft, and is attracting much attention as a new mobile communication platform for ultra-wide coverage areas and disaster-...

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Veröffentlicht in:IEICE Transactions on Communications 2022/10/01, Vol.E105.B(10), pp.1209-1218
Hauptverfasser: OMOTE, Hideki, SATO, Akihiro, KIMURA, Sho, TANAKA, Shoma, LIN, HoYu
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container_end_page 1218
container_issue 10
container_start_page 1209
container_title IEICE Transactions on Communications
container_volume E105.B
creator OMOTE, Hideki
SATO, Akihiro
KIMURA, Sho
TANAKA, Shoma
LIN, HoYu
description High-Altitude Platform Station (HAPS) provides communication services from an altitude of 20km via a stratospheric platform such as a balloon, solar-powered airship, or other aircraft, and is attracting much attention as a new mobile communication platform for ultra-wide coverage areas and disaster-resilient networks. HAPS can provide mobile communication services directly to the existing smartphones commonly used in terrestrial mobile communication networks such as Fourth Generation Long Term Evolution (4G LTE), and in the near future, Fifth Generation New Radio (5G NR). In order to design efficient HAPS-based cell configurations, we need a radio wave propagation model that takes into consideration factors such as terrain, vegetation, urban areas, suburban areas, and building entry loss. In this paper, we propose a new vegetation loss model for Recommendation ITU-R P.833-9 that can take transmission frequency and seasonal characteristics into consideration. It is based on measurements and analyses of the vegetation loss of deciduous trees in different seasons in Japan. Also, we carried out actual stratospheric measurements in the 700MHz band in Kenya to extend the lower frequency limit. Because the measured results show good agreement with the results predicted by the new vegetation loss model, the model is sufficiently valid in various areas including actual HAPS usage.
doi_str_mv 10.1587/transcom.2021EBP3109
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subjects Altitude
Communication
Communication networks
Configuration management
Deciduous trees
Disaster management
High altitude
measurements
mobile radio
propagation
Radio waves
seasonal characteristics
Smartphones
Solar powered aircraft
Suburban areas
Urban areas
Vegetation
vegetation loss
Wave propagation
title Highly Accurate Vegetation Loss Model with Seasonal Characteristics for High-Altitude Platform Station
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